Experimental Physics
Accelerated particles, laser-driven systems, and entangled quantum states — built, tuned, and measured in-house.
Interdisciplinary Science Lab
Physics, technology,
and biology at one bench.
ION Labs is an independent research group working across the boundaries of experimental physics, theoretical physics, advanced instrumentation, and biologically inspired computation. We build the hardware, run the experiments, and work on the theory that ties them together.
- Experimental Physics
- Theoretical Physics
- Instrumentation
- Biological Computation
01 — The Research
What kind of research we do
Our work is deliberately cross-disciplinary. A single lab that can shape optics, fabricate a vacuum assembly, run a detector, and reason about the underlying physics moves faster than one that must outsource each of those steps. Most of our projects begin as a physical question and end as an instrument, and the instrument usually suggests the next question.
Four areas recur across the portfolio. We study matter at its smallest scales — quantizing charge, unifying the fundamental forces, and generating and measuring entangled states. We develop the measurement technology that makes such studies possible: particle accelerators, infrared laser systems, and electron-optical imaging. And we ask whether computation can be built from engineered, lab-grown materials rather than living tissue, exploring synthetic substrates that could one day stand in for biological tissue in computing and artificial intelligence.
Alongside the experimental program we maintain a theoretical track. Rather than treating theory as a separate department, we use it as a design tool: models are written down, checked against measurement, and discarded or refined when the data disagree.
Theoretical Physics
Unification frameworks and emergent models of matter, developed to be testable against experiment rather than merely self-consistent.
Instrumentation & Imaging
Accelerators, infrared sources, electron microscopy, and retro-reflective aerial imaging — the measurement stack the rest of the work rests on.
Biological Computation
Synthetic materials engineered to stand in for organic organoids as substrates for computation and artificial intelligence.
02 — The Projects
Current projects
Eight active lines of work. Each is at an early enough stage that we are actively shaping its scope.
Imaging · Remote Sensing
AIRR
Aerial Imaging by Retro-Reflection
Wide-area aerial survey built on retro-reflective imaging. Returning light from a controlled surface carries far more recoverable signal than ambient reflection, which makes sparse, low-power targets legible from the air — useful for terrain, infrastructure, and environmental mapping.
Quantum
Entanglement
Generating and measuring correlated quantum states
Production, verification, and control of entangled photon and matter states, together with the detection schemes needed to confirm that a pair is genuinely correlated rather than classically explained.
Equipment · Lasers
IR Laser
Custom lab-built infrared equipment
In-house fabrication of infrared laser equipment, built to the specifications an experiment actually needs. Commercially available sources rarely match a research requirement exactly, so designing and assembling our own is what makes the additional experiments possible — and the resulting capability becomes a platform other projects can build on.
Accelerators
Linear Accelerator
Fixed-target experiments
Fixed-target experiments that drive high-energy particles into stationary targets in order to study atomic nuclei, fundamental particles, and the forces that bind matter together. Because the target does not recoil, the full beam energy is available to the interaction itself, concentrating the useful output in a compact apparatus.
Theory
Physics
King’s Unified Theory (KUT)
A proposed unification in which matter and all fundamental forces emerge from Planck-scale wave interference — deriving quark confinement, weak decay, electromagnetism, and gravity without invoking gluons, W/Z bosons, or gravitons. Written up in Everything is Nothing, which sets out the governing equations, compares them to QCD and general relativity, and proposes experiments that could confirm or refute the framework.
Instrumentation
SEM
Scanning Electron Microscopy
High-resolution electron imaging and microanalysis: surface topography, composition, and failure analysis at scales inaccessible to optical methods. The core characterization tool for the materials work.
Biology · Computation
Synthetic Organoid
Lab-made substrates for biological computation and AI
Developing synthetic materials designed to replace organic organoids as the substrate for biological computation. The aim is a reproducible, scalable material that supports the computational behaviour we want from biological tissue without the variability of living samples — a step toward artificial intelligence built on engineered matter.
Biology · Chemistry
Antibiotics
Drug discovery and synthesis
Discovery and chemical synthesis of antimicrobial compounds — identifying candidates with activity against resistant organisms and working out how to make them. The lab's existing instrumentation supports the characterisation and analysis side of this work.
03 — Next
More to come
This is an introduction. Detailed pages for each project — methods, apparatus, results, and publications — will be added as the work develops.